R. B. Nowak

This study investigates the nanoscale organization of F-actin nodes in red blood cell membranes using advanced microscopy and computational analysis, revealing non-uniform distribution and dynamic behavior.

This study shows that Tpm3.5 stabilizes F-actin networks in mouse lens fiber cells, maintaining tissue biomechanical properties and mechanical resilience.

This study examines how mechanical strain affects the structure of mouse eye lenses, finding reversible and irreversible changes in microstructure depending on strain magnitude.

This paper shows that myosin IIA interacts with the spectrin-actin membrane skeleton in red blood cells to control membrane curvature and deformability by exerting contractile forces.